Microwave Waveguide Sizes & Dimensions

Microwave Waveguide Sizes

Microwave Waveguide
Microwave Waveguide

Due to high frequencies used, Waveguides rather than RF coaxial cables are used to connect Microwave Radios, Antennas and Couplers.  Matched and correct size and dimension of Waveguide is essential for all items in the Microwave link.

What is a Waveguide?

A waveguide is an electromagnetic feed line that is used for high frequency signals. Waveguides conduct microwave energy at lower loss than coaxial cables and are used in microwave communications, radars and other high frequency applications.

The waveguide must have a certain minimum cross section, relative to the wavelength of the signal to function properly. If wavelength of the signal is too long (Frequency is too low) when compared to the cross section of the waveguide, the electromagnetic fields cannot propagate. The lowest frequency range at which a waveguide will operate is where the cross section is large enough to fit one complete wavelength of the signal.

Rectangular, Circular and Double Rigid

Geometrically speaking there are three types of waveguides – Rectangular Waveguides, Double Rigid Waveguides and Circular Waveguides. The tables below will give you details on the various waveguide sizes and their properties.

Rectangular Waveguide Sizes

Waveguide name Recommended frequency Cutoff frequency
lowest order mode
Cutoff frequency
next mode
Inner dimensions of waveguide opening
EIA RCSC * IEC A inch[mm] B inch[mm]
WR2300 WG0.0 R3 0.32 to 0.45 GHz 0.257 GHz 0.513 GHz 23 [584.2] 11.5 [292.1]
WR2100 WG0 R4 0.35 to 0.50 GHz 0.281 GHz 0.562 GHz 21 [533.4] 10.5 [266.7]
WR1800 WG1 R5 0.45 to 0.63 GHz 0.328 GHz 0.656 GHz 18 [457.2] 9 [228.6]
WR1500 WG2 R6 0.50 to 0.75 GHz 0.393 GHz 0.787 GHz 15 [381] 7.5 [190.5]
WR1150 WG3 R8 0.63 to 0.97 GHz 0.513 GHz 1.026 GHz 11.5 [292.1] 5.75 [146.05]
WR975 WG4 R9 0.75 to 1.15 GHz 0.605 GHz 1.211 GHz 9.75 [247.65] 4.875 [123.825]
WR770 WG5 R12 0.97 to 1.45 GHz 0.766 GHz 1.533 GHz 7.7 [195.58] 3.85 [97.79]
WR650 WG6 R14 1.15 to 1.72 GHz 0.908 GHz 1.816 GHz 6.5 [165.1] 3.25 [82.55]
WR510 WG7 R18 1.45 to 2.20 GHz 1.157 GHz 2.314 GHz 5.1 [129.54] 2.55 [64.77]
WR430 WG8 R22 1.72 to 2.60 GHz 1.372 GHz 2.745 GHz 4.3 [109.22] 2.15 [54.61]
WG9 2.20 to 3.30 GHz 1.686 GHz 3.372 GHz 3.5 [88.9] 1.75 [44.45]
WR340 WG9A R26 2.20 to 3.30 GHz 1.736 GHz 3.471 GHz 3.4 [86.36] 1.7 [43.18]
WR4284 WG10 R32 2.60 to 3.95 GHz 2.078 GHz 4.156 GHz 2.84 [72.136] 1.34 [34.036]
WG11 3.30 to 4.90 GHz 2.488 GHz 4.976 GHz 2.372 [60.2488] 1.122 [28.4988]
WR229 WG11A R40 3.30 to 4.90 GHz 2.577 GHz 5.154 GHz 2.29 [58.166] 1.145 [29.083]
WR187 WG12 R48 3.95 to 5.85 GHz 3.153 GHz 6.305 GHz 1.872 [47.5488] 0.872 [22.1488]
WR159 WG13 R58 4.90 to 7.05 GHz 3.712 GHz 7.423 GHz 1.59 [40.386] 0.795 [20.193]
WR137 WG14 R70 5.85 to 8.20 GHz 4.301 GHz 8.603 GHz 1.372 [34.8488] 0.622 [15.7988
WR112 WG15 R84 7.05 to 10 GHz 5.26 GHz 10.52 GHz 1.122 [28.4988] 0.497 [12.6238]
WR102 7.00 to 11 GHz 5.786 GHz 11.571 GHz 1.02 [25.908] 0.51 [12.954]
WR90 WG16 R100 8.20 to 12.40 GHz 6.557 GHz 13.114 GHz 0.9 [22.86] 0.4 [10.16]
WR75 WG17 R120 10.00 to 15 GHz 7.869 GHz 15.737 GHz 0.75 [19.05] 0.375 [9.525]
WR62 WG18 R140 12.40 to 18 GHz 9.488 GHz 18.976 GHz 0.622 [15.7988] 0.311 [7.8994]
WR51 WG19 R180 15.00 to 22 GHz 11.572 GHz 23.143 GHz 0.51 [12.954] 0.255 [6.477]
WR42 WG20 R220 18.00 to 26.50 GHz 14.051 GHz 28.102 GHz 0.42 [10.668] 0.17 [4.318]
WR34 WG21 R260 22.00 to 33 GHz 17.357 GHz 34.715 GHz 0.34 [8.636] 0.17 [4.318]
WR28 WG22 R320 26.50 to 40 GHz 21.077 GHz 42.154 GHz 0.28 [7.112] 0.14 [3.556]
WR22 WG23 R400 33.00 to 50 GHz 26.346 GHz 52.692 GHz 0.224 [5.6896] 0.112 [2.8448]
WR19 WG24 R500 40.00 to 60 GHz 31.391 GHz 62.782 GHz 0.188 [4.7752] 0.094 [2.3876]
WR15 WG25 R620 50.00 to 75 GHz 39.875 GHz 79.75 GHz 0.148 [3.7592] 0.074 [1.8796]
WR12 WG26 R740 60 to 90 GHz 48.373 GHz 96.746 GHz 0.122 [3.0988] 0.061 [1.5494]
WR10 WG27 R900 75 to 110 GHz 59.015 GHz 118.03 GHz 0.1 [2.54] 0.05 [1.27]
WR8 WG28 R1200 90 to 140 GHz 73.768 GHz 147.536 GHz 0.08 [2.032] 0.04 [1.016]
WR6 WG29 R1400 110 to 170 GHz 90.791 GHz 181.583 GHz 0.065 [1.651] 0.0325 [0.8255]
WR7 WG29 R1400 110 to 170 GHz 90.791 GHz 181.583 GHz 0.065 [1.651] 0.0325 [0.8255]
WR5 WG30 R1800 140 to 220 GHz 115.714 GHz 231.429 GHz 0.051 [1.2954] 0.0255 [0.6477]
WR4 WG31 R2200 172 to 260 GHz 137.243 GHz 274.485 GHz 0.043 [1.0922] 0.0215 [0.5461]
WR3 WG32 R2600 220 to 330 GHz 173.571 GHz 347.143 GHz 0.034 [0.8636] 0.017 [0.4318]

Note:

  • The “WR” designation stands for Rectangular Waveguides
  • The Number that follows “WR” is the width of the waveguide opening in mils, divided by 10. For Example WR-650 means a waveguide whose cross section width is 6500 mils.
  • The waveguide width determines the lower cutoff frequency and is equal (ideally) to ½ wavelength of the lower cutoff frequency.

Double-ridge waveguides are rectangular wagevuides with two ridges protruding parallel to the short wall. This increases the E-Field in the waveguide improving performance.

Double Ridge Waveguide Sizes

Designation
(a)=aluminum, (b)=brass, (c)=copper, (s)=silver
fL – fU*
(GHz)
fCO**
(GHz)
Inside
Width
(in)
Inside
Height
(in)
WR U.S. Mil.
__ /U
British
Mil.
IEC
WR975 RG204 (a) 0.75-1.12 0.605 9.750 4.875
WR770 RG205 (a) 0.96-1.45 0.766 7.700 3.850
WR650 RG69 (b)
RG103 (a)
WG6 1.12-1.70 0.908 6.500 3.250
WR510 1.45-2.20 1.157 5.100 2.550
WR430 RG104 (b)
RG105 (a)
WG8 1.70-2.60 1.372 4.300 2.150
WR340  RG112 (b)
RG113 (a)
WG9A 2.20-3.30 1.736 3.400 1.700
WR284 RG48 (b)
RG75 (a)
WG10 2.60-3.95 2.078 2.840 1.340
WR229  RG340 (c)
RG341 (a)
WG11A R40 3.30-4.90 2.577 2.290 1.145
WR187 RG49 (b)
RG95 (a)
WG12 R48 3.95-5.85- 3.152 1.872 0.872
WR159  RG343 (c)
RG344 (a)
WG13 R58 4.90-7.05 3.712 1.590 0.795
WR137 RG50 (b)
RG106 (a)
WG14 R70 5.850-8.200 4.301 1.372 0.622
WR112 RG51 (b)
RG68 (a)
WG15 R84 7.050-10.000 5.260 1.122 0.497
WR90 RG52 (b)
RG67 (a)
WG16 R100 8.20-12.40 6.56 0.900 0.400
WR75  RG346 (c)
RG347 (a)
WG17 10.0-15.0 7.87 0.750 0.375
WR62 RG91 (b)
RG349 (a)
WG18 12.40-18.00 9.49 0.622 0.311
WR51  RG352 (c)
RG351 (a)
WG19 15.00-22.00 11.6 0.510 0.255
WR42 RG53 (b)
RG121 (a)
WG20 18.00-26.5 14.1 0.420 0.170
WR34 RG354 (c) 20.0-33.0 17.4 0.340 0.170
WR28 RG96 (s)
RG271 (c)
WG22 26.50-40.00 21.1 0.280 0.140
WR22 RG97 (s) WG23 33.00-50.00 26.4 0.224 0.112
WR19 WG24 40.00-60.00 31.4 0.188 0.0940
WR15 RG98 (s) WG25 50.00-75.00 39.9 0.148 0.0740
WR12 RG99 (s) WG26 60.00-90.00 48.4 0.122 0.0610
WR10 WG27 75.00-110.0 59.0 0.100 0.0500
WR8 RG138 (s) WG28 90.00-140.0 73.8 0.0800 0.0400
WR7 RG136 (s) 110.0-170.0 90.8 0.0650 0.0325
WR4 RG137 170.0-260.0 137 0.0430 0.0215
WR3 RG139 (s) 220.0-325.0 174 0.0340 0.0170

 

Circular Waveguide Sizes

FrequencyBand Frequency Range Circular WaveguideDiameter, Inches (mm) Cover Flange (Brass)MIL-F- 3922 UG Flange Type
X LOW 8.2-9.97 1.094 (27.79) 53-001 UG-39/U Square
MID 8.5-11.6 0.938 (23.83)
HIGH 9.97-12.4 0.797 (20.24)
Ku LOW 12.4-15.9 0.688 (17.48) 53-005 UG-1666/U Square
MID 13.4-18.0 0.594 (15.08)
HIGH 15.9-18.0 0.500 (12.70)
K LOW 17.5-20.5 0.455 (11.56) 54-001 UG-595/U Square
MID 20-24.5 0.396 (10.06)
HIGH 24-26.5 0.328 (8.33)
Ka LOW 26.5-33 0.315 (8.00) 54-003 UG-595/U Square
MID 33-38.5 0.250 (6.35)
HIGH 38.5-40 0.219 (5.56)
Q LOW 33-38.5 0.250 (6.35) 67B-006 UG-383/U Round
MID 38.5-43 0.219 (5.56)
HIGH 43-50 0.188 (4.78)
U LOW 40-43 0.210 (5.33) 67B-007 UG-383/U-M Round
MID 43-50 0.188 (4.78)
HIGH 50-60 0.165 (4.19)
V LOW 50-58 0.165 (4.19) 67B-008 UG-385/U Round
MID 58-68 0.141 (3.58)
HIGH 68-75 0.125 (3.18)
E LOW 60-66 0.136 (3.45) 67B-009 UG-387/U Round
MID 66-82 0.125 (3.18)
HIGH 82-90 0.094 (2.39)
W LOW 75-88 0.112 (2.84) 67B-010 UG-387/U-M Round
HIGH 88-110 0.094 (2.39)
F LOW 90-115 0.089 (2.26) -UG-387/U-M Round
HIGH 115-140 0.075 (1.91)
D LOW 110-140 0.073 (1.85) -UG-387/U-M Round
HIGH 140-160 0.059 (1.50)
G LOW 140-180 0.058 (1.47) -UG-387/U-M Round
HIGH 180-220 0.045 (1.14)
170-260 0.049 (1.25) -UG-387/U-M Round
220-325 0.039 (0.99) -UG-387/U-M Round

 

WR340 | WG9A | R26 Waveguide

WR340 | WG9A | R26 – Rectangular Waveguide Size

WR340 | WG9A | R26 Waveguide Size

  • EIA Standard:WR340
  • RSCS Standard (British Military):WG9A
  • IEC Standard:R26

WR340 Specifications

  • Recommended Frequency Band:2.20 to 3.30 GHz
  • Cutoff Frequency of Lowest Order Mode:1.736 GHz
  • Cutoff Frequency of Upper Mode:3.471 GHz
  • Dimension:3.4 Inches [86.36 mm] x 1.7 Inches [43.18 mm]

 

Microwave Waveguide WR2300
Microwave Waveguide

What is a Waveguide?

A waveguide is an electromagnetic feed line that is used for high frequency signals. Waveguides conduct microwave energy at lower loss than coaxial cables and are used in microwave communications, radars and other high frequency applications.

The waveguide must have a certain minimum cross section, relative to the wavelength of the signal to function properly. If wavelength of the signal is too long (Frequency is too low) when compared to the cross section of the waveguide, the electromagnetic fields cannot propagate. The lowest frequency range at which a waveguide will operate is where the cross section is large enough to fit one complete wavelength of the signal.

For Further Information

For More Information on Microwave Planning, Please Contact Us

WR975 | WG4 | R9 Waveguide

WR975 | WG4 | R9 – Rectangular Waveguide Size

Waveguide Size

  • EIA Standard:WR975
  • RSCS Standard (British Military):WG4
  • IEC Standard:R9

WR975 Specifications

  • Recommended Frequency Band:0.75 to 1.15 GHz
  • Cutoff Frequency of Lowest Order Mode:0.605 GHz
  • Cutoff Frequency of Upper Mode:1.211 GHz
  • Dimension:9.75 Inches [247.65 mm] x 4.875 Inches [123.825 mm]

 

Microwave Waveguide WR975
Microwave Waveguide

What is a Waveguide?

A waveguide is an electromagnetic feed line that is used for high frequency signals. Waveguides conduct microwave energy at lower loss than coaxial cables and are used in microwave communications, radars and other high frequency applications.

The waveguide must have a certain minimum cross section, relative to the wavelength of the signal to function properly. If wavelength of the signal is too long (Frequency is too low) when compared to the cross section of the waveguide, the electromagnetic fields cannot propagate. The lowest frequency range at which a waveguide will operate is where the cross section is large enough to fit one complete wavelength of the signal.

For Further Information

For More Information on Microwave Planning, Please Contact Us

WR1150 | WG3 | R8 Waveguide

WR1150 | WG3 | R8 – Rectangular Waveguide Size

Waveguide Size

  • EIA Standard:WR1150
  • RSCS Standard (British Military):WG3
  • IEC Standard:R8

WR1150 Specifications

  • Recommended Frequency Band:0.63 to 0.97 GHz
  • Cutoff Frequency of Lowest Order Mode:0.513 GHz
  • Cutoff Frequency of Upper Mode:1.026 GHz
  • Dimension:11.5 Inches [292.1 mm] x 5.75 Inches [146.05 mm]

 

Microwave Waveguide WR1150
Microwave Waveguide

What is a Waveguide?

A waveguide is an electromagnetic feed line that is used for high frequency signals. Waveguides conduct microwave energy at lower loss than coaxial cables and are used in microwave communications, radars and other high frequency applications.

The waveguide must have a certain minimum cross section, relative to the wavelength of the signal to function properly. If wavelength of the signal is too long (Frequency is too low) when compared to the cross section of the waveguide, the electromagnetic fields cannot propagate. The lowest frequency range at which a waveguide will operate is where the cross section is large enough to fit one complete wavelength of the signal.

For Further Information

For More Information on Microwave Planning, Please Contact Us

1024QAM Microwave Links

1024QAM Microwave Links for High Capacity Wireless Transmission

High Capacity Microwave Links from leading vendors use 1024QAM modulation to achieve high capacity, spectral density and efficiency without sacrificing reliability.  This technology sets a new benchmark for microwave transmission capacity for operators including 4G / LTE Backhaul links for mobile operators as well as last-mile links, backbone and other applications.

High Capacity Links require High Order QAM modulation

CableFree Microwave 1024QAM increase from 4QAMLeading long-haul microwave equipment vendors are now using dependable long-distance transmissions using 1024 QAM. Relative to the industry-standard 256 QAM, this represents a 25% increase in capacity (and up to double the capacity of legacy SDH links), with all other factors the same. Compared to older 4QAM modulation the increase to 1024QAM is five-fold. Operators of long-haul microwave links will certainly enjoy the boost to their capacity with 1024 QAM, especially when these upgrades are relatively painless and generally require only a minor and quick swap of equipment.

Adaptive Coding and Modulation (ACM)

ACM with 1024QAM ModulationLeading microwave equipment vendors are able to keep their long-haul transmission links operational even in transient fade and noisy conditions. The enabling technology is ACM: Adaptive Coding and Modulation. Microwave links with ACM technology automatically sense the quality of the transmission link and can automatically decrease the modulation technique in case of degraded signal quality due to interference or other microwave propagation problems such as weather. So, if a microwave transmission is operating at maximum capacity using 1024QAM and suddenly encounters interference or high rainfall, a system such as the CableFree microwave system automatically steps down the modulation to lower levels until the transmission network, although at lower capacity now, maintains the ultra high level of link reliability and availability. As the temporary weather effects disappear, the microwave system automatically re-applies more efficient higher-order modulation techniques to regain full capacity.

Overcoming Tradeoffs due to High Order QAM Modulation

CableFree 1024QAM modulation tradeoffsWith increasing modulation the receiver sensitivity is greatly reduced, and generally transmit power has to be reduced due to linearity constraints in the transmitter.  For fixed modulation speeds the result is either increase of antenna size or reduced distances, which may prevent an operator upgrading to higher capacity.  The use of ACM allows use of 1024QAM whilst avoiding sacrifice of distance or antenna sizes, by graceful step-down of modulation to lower rates during rare periods of high rainfall.

Use along with other bandwidth-enhancing technologies such as XPIC

1024QAM modulation is fully compatible with other methods to increase capacity such as XPIC (Cross Polar Interference Cancellation).  An advanced microwave modem featuring 1024QAM and XPIC can greatly increase capacity.  XPIC alone offers double the capacity compared to a single polarised non-XPIC solution.

1024QAM Microwave Summary

These latest advancements in advanced microwave modulation offer network operators an easy and inexpensive upgrade path to higher capacities to meet demand. Advanced modulation technology of 1024QAM is fully shipping and available today and offers a very cost-effective way to boost capacity in long-haul microwave applications.

For Further Information

For More Information on High Capacity Microwave Solutions, Please Contact Us

 

Microwave Antenna Alignment

Alignment of Microwave Antennas for Digital Microwave Transmission Systems

This article contains generic instructions for alignment of Microwave antennas.  Specific products may have different features, in which case please refer to the documentation provided for those products:

CableFree Microwave Antenna Alignment
CableFree Microwave Antenna Alignment

Antenna Alignment for Microwave Links

This guide explains how to achieve the optimal antenna alignment of microwave antennas when used with modern digital microwave products.  Before attempting to do the alignment it is highly recommended that you read this guide in detail.  For specific commands please consult the manual of the product being installed

Step 1:  Preparation:

Mount the antenna on the tower according to the antenna installation instructions:  Ensure that the adjustment bolts move smoothly and the range of motion is sufficient for the expected angle of up and down (elevation) tilt. Ensure that the mount itself is attached securely and all safety precautions have been taken.

CableFree Microwave Antenna Alignment using DVM
CableFree Microwave Antenna Alignment using DVM

Step 2: Coarse Alignment:

Visually align the antenna with the far end.  The most common ways to do this are :

1)      If the visibility is good and the sun is in the correct position, have someone at the far end location reflect the sun with a mirror so the location is obvious.

2)      If visibility is poor, use GPS coordinates and a GPS compass to aim the antenna coarsely.

CableFree Microwave Antenna Alignment avoiding Sidelobes
CableFree Microwave Antenna Alignment avoiding Sidelobes

Step 3: Fine Alignment.

Before conducting fine alignment, the ODUs at both ends of the link must be attached properly to the antenna via the direct mount or remote mount (using Waveguide) and the far end ODU must be powered on and transmitting.  The ODU lightning surge suppressors and grounding provisions should be put in place as well before alignment. The local ODU must be powered on, but need not be transmitting.

Ensure that:

1)      Frequency of the far end transmitter matches the frequency of the local receiver.

2)      The TX output power is not set above the level of the license.

3)      ATPC is turned OFF on the far end.

4)      Alignment mode is ON for SP ODUs – Display on ODU and IDU will update at 5 times per second.

FINE ALIGNMENT PROCEDURE

1)      Adjust the azimuth over a 30 degree sweep by turning the adjustment bolt in increments of 1/10th turn to avoid missing the main lobe. When the highest signal has been found for azimuth, repeat for the elevation adjustment.

2)      Turn the local transmitter on to allow alignment at the far end.

3)      Move to the far end of the link and repeat step 1.

4)      Lock down the antenna so no further movement can occur.

5)      Install the antenna side struts supplied with the antenna.

6)      Verify the RSSI remains the same and is within 2-4 dB of the expected levels.

7)      Check the ODU connector seals.

8)      Turn alignment mode OFF

9)      The alignment is complete.

Microwave Mobile Backhaul

Packet Microwave Radios for Mobile Backhaul

To deliver a compelling quality of experience for subscribers, you must respond quickly to growing traffic demands. Modern Packet Microwave Mobile Backhaul products help you maximize the network’s performance by enabling rapid deployment of scalable backhaul to cell sites.  Modern solutions include a portfolio of microwave products to address the backhaul needs of 2G, 3G, and LTE macro cells and 3G, LTE, and Wi-Fi® small cells. Radio spectrum is maximized using innovative techniques to maximize payload capacity to support the evolution to LTE and heterogeneous networks. Unique, common radio support for indoor and outdoor deployments enhances savings potential.

Packet Microwave Mobile Backhaul is a key component in a modern end-to-end mobile backhaul solution, which provides the flexibility, scale and operational simplicity to lower the total cost of ownership and simultaneously enhance the mobile service experience.

BENEFITS

CableFree Microwave for Mobile Backhaul
CableFree Microwave for Mobile Backhaul

Economic benefits

Rapidly support the optimal cell site location

  • Complete backhaul portfolio for macro cells and small cells
  • Support for all sites including both end and intermediate cell sites
  • Space and power efficiency
  • Full outdoor option to meet different microwave site space requirements

Achieve maximum spectral performance

  • Maximum bandwidth per band
  • Intelligent compression
  • Advanced quality of service levels supporting subscriber quality of experience

Scale the network cost effectively

  • Reliably bond radio channels to create larger microwave links
  • Any topology, any number of microwave link directions
  • Network awareness for both Carrier Ethernet and/or IP/MPLS networks

Be operationally efficient

  • Common radio for all cell sites
  • Evolutionary path from hybrid microwave to packet microwave at the touch of a button
  • Management beyond basic IP partner integration

Deployment, management, end-user benefits

Grow and retain subscribers by maximizing the mobile experience

  • Infrastructure support for increased subscriber bandwidth demands
  • Ability to react quickly to subscriber demand with optimally-located cell sites
  • Increased capacity that supports high bandwidth data applications

COMPONENTS

4G/LTE Mobile Backhaul
4G/LTE Mobile Backhaul

Packet Microwave Mobile Backhaul integrates a modern microwave portfolio with small cell optimized products to provide a complete backhaul offering for small cells and/or macro cells.

Read on in our following pages to find out more about technologies used in mobile backhaul applications

Key technologies in a modern Microwave Network

Key technologies used in modern Microwave Networks  – what to look out for:

Build faster, more efficient microwave networks

Critical features of a modern microwave network product range let you deliver more data with superior performance while using less spectrum and equipment. These features include:

  • Complete range of low cost to high end modular solutions
  • Efficient Modulation schemes of up to 256QAM, 512QAM, 1024QAM, 2048QAM and 4096QAM
  • Automatic Transmit Power Control (ATPC)
  • Advanced packet compression techniques that increase channel capacity by up to 300%
  • Scalable multichannel microwave links that support increased capacity and reliability
  • Adaptive Coding and Modulation (ACM) that extends across multiple channels to sustain maximum performance in all environments
  • Software Defined Radio (SDR) Microwave Technology

Boost capacity and reliability with advanced networking

With a modern microwave network, you should expect advanced Carrier Ethernet networking capabilities that can double network capacity while delivering high availability. These capabilities include:

  • Unique ring and mesh topology configurations that can double network capacity, improve reliability and reduce network costs
  • Integrated IP-microwave solutions that reduce space and power consumption
  • The ability to support TDM, Ethernet and IP services on a single packet-based network
Complete Microwave Network
Complete Microwave Network

Simplify operations with an end-to-end approach

Expect to see: a complete family of microwave solutions that addresses all network sizes and locations including tail, hub and backbone. With an approach that uses common equipment and software across all sites, vendors should help you streamline management processes and reduce TCO. Features offered:

  • Common radio transceivers that reduce the need for spares across all applications
  • A flexible range of Indoor Units (IDUs) and Outdoor Units (ODUs) to reduce space and power consumption
  • Common software and network management that simplify operations across the network